Theory and applications of mesoscopic quantum coherence and entanglement

Quantum coherence and quantum entanglement are properties that distinguish quantum from classical systems. These properties also underpin emerging quantum technologies that promise secure communication, ultra-precise measurement and fast computation. This project is a theoretical investigation into how to generate and detect quantum coherence and entanglement in mesoscopic systems with application to quantum information, gravity wave detection and quantum technologies. These systems include opto-mechanical, cold-atom, Bose-Einstein condensate, superconducting and multi-partite optical systems. The project will involve the numerical simulation of quantum correlations using density operator phase space techniques, and will aim to simulate and study extreme quantum behaviour. The overarching aim is to discover the extent of such quantum behaviour in large-scale systems such as early universe models. The project will thus give insight into the quantum-classical transition.

The project will be undertaken within the Theory Group at the Centre for Quantum and Optical Science, Swinburne University of Technology, Melbourne.
Applicants should have a Masters or B Sc honours in physics with a strong interest in pursuing either theoretical or computational physics. Previous numerical experience is not essential.
A Ph D scholarship is available for 3 years at $26,000 pa.
The application deadline is 17 January 2018. The starting date is flexible but normally Sept/Oct 2018.
For further information and/ or to apply, please email a CV and academic transcript with statement of interest to Professor Margaret Reid at [Email Address Removed] .